Introduction
The Titius-Bode rule describes the distribution of the planets around the sun, but starts to fail
pretty bad at Neptune. I have devised several schemes in terms of various factors to describe
the distribution of the planets. One prominent feature in these instances is that two planets
stick out in their characteristics, Venus and Mars. Other than Mercury and Earth, these are the
solid, terrestrial planets; the rest are gas giants. They are on either side of the Earth and the
closest to it. Venus is closer to the Sun than our Earth and Mars is further. Venus and Mars
have always been of great interest to us. Venus to the Russians as they have sent several
probes to it and Mars to the United States as we have sent several roaming landers to it. This
is interesting, Venus is often called the sister planet to Earth, because it is of similar size and
mass as Earth. It would seem she was once much cooler but underwent a runaway
greenhouse effect making it too hot to be habitable, hence its interest to the Russians, and
Mars while further from the sun and colder than the Earth, it is still habitable, and thus
colonizable, and hence its interest to the United States. Interestingly in our search for life on
Mars, we recently found hints of microbial life in the atmosphere of Venus (2020). Often I don’t
include Mercury because it is so small and not very massive so it didn’t contribute much to the
nature of the protoplanetary disc from which the planets formed, and mostly because its orbit
is so eccentric that it might not make sense to consider its average orbital distance. The
purpose of this paper is to explore the equations of Venus and Mars, as they are pivotal in the
importance of human destine. I also pull perfect expressions out of different schemes to begin
to make a perfect table. The schemes have theoretical implications in mathematics and
physics, but this is treated in other works. It would seem running through the thread of solar
system origin and structure is the recurring motif of artificial intelligence logic circuitry theory.
Guessing a solution to a weird problem requires weird mathematics. I create weird arithmetic. It
would seem the distribution of the planets have an AI motif. At this point I suggest that
it defies a single algebraic expression because it may be that it uses logic gate
arithmetic, which does not follow arithmetic as is done in mathematics, but rather in
creating logic circuits with the seven basic gates."